Study on TVOCs concentration distribution and evaluation of inhaled air quality under a re-circulated ventilation system

Building and Environment

Volumn 42, Issue 3, 2007, Pages 1110-1118

  Zhang, Quan ^a   Zhang, Guoqiang ^a  

^a HUNAN UNIVERSITY   (China)

Author keywords

Contribution ratio of pollution source (CRP); Dried building material; Re circulated ventilation system; Total volatile organic compounds (TVOCs)

Indexed keywords

AIR QUALITY; BUILDING MATERIALS; COMPUTER SIMULATION; IMPURITIES; INDOOR AIR POLLUTION; PARTICULATE EMISSIONS; VOLATILE ORGANIC COMPOUNDS;

CHEMICAL CONTAMINANTS; DRIED BUILDING MATERIAL; RE-CIRCULATED VENTILATION SYSTEM; TOTAL VOLATILE ORGANIC COMPOUNDS (TVOCS);

VENTILATION;

AIR QUALITY; BUILDING MATERIALS; COMPUTER SIMULATION; IMPURITIES; INDOOR AIR POLLUTION; PARTICULATE EMISSIONS; VENTILATION; VOLATILE ORGANIC COMPOUNDS;

AIR QUALITY; INDOOR AIR; VENTILATION; VOLATILE ORGANIC COMPOUND;

EID: 33751198517     PISSN: 03601323     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.buildenv.2005.11.012     Document Type: Article

References (32)

1. Zhang L.Z., and Liu J.L. Modeling VOCs emissions in the room with a single-zone multi-component multi-layer technique. Building and Environment 39 (2004) 523-531
2. Sundell J. On the history of indoor air quality and health. Indoor Air 14 Suppl. 7 (2004) 51-58
3. De Bellie L, Haghighat F, Zhang Y. Review of the effect of environmental parameters in material emissions. In: Proceedings of the 2nd international conference on indoor air quality, ventilation, and energy conservation in buildings'95, Montreal, Canada, 1995. p. 111-9.
4. Huang H., and Haghighat F. Modelling of volatile organic compounds emission from dry building materials. Building and Environment 37 (2002) 1349-1360
5. Murakami S., Kato S., Ito K., and Zhu Q. Modeling and CFD prediction for diffusion and adsorption within room with various adsorption isotherm. Indoor Air 13 Suppl. 6 (2003) 20-27
6. Zhang Y., and Haghighat F. The impact of the surface air movement on material emissions. Building and Environment 32 (1997) 551-556
7. Haghighat F., and De Bells L. Material emission rates, literature review, and the impact of indoor air temperature and relative humidity. Building and Environment 33 (1998) 261-277
8. Yang X., Srebric J., Li X., and He G. Performance of three air distribution systems in voc removal from area source. Building and Environment 40 (2004) 1289-1299
9. Zhang Q, Shinsuke Kato YH, Dingbiao W. Investigation of indoor TVOCs concentration distribution under two typical ventilation modes. In: Conference of indoor air 2005, Beijing, China, 2005.
10. Zhang Q, Kato S, Yao-Shyan T. Prediction of indoor TVOCs concentration distribution with a fluctuant temperature of the outwall under a mixing ventilation system. In: Proceedings of air conditioning, Japan, 2005. p. 845-8.
11. Kato S, Kobayashi H. New ventilation efficiency scales based on spatial distribution of contaminant concentration aided by numerical simulation. International symposium on room air convection and ventilation effectiveness, Tokyo, Japan,1992. p. 321-32.
12. Murakami S. Analysis and design of indoor chemical environment by CFD. Study on indoor air pollution with chemical contaminant. Kato and Ooka Laboratory; 2003. p. 140-5.
13. Murakami S. Analysis and design of micro-climate around the human body with respiration by CFD. Indoor Air 14 (2004) 144-156
14. Fluent Corporation. Fluent user guide, 1998. p. 1-3.
15. BjØrn E., and Nielsen P.V. Dispersal of exhaled air and personal exposure in displacement ventilated rooms. Indoor Air 12 (2002) 147-164
16. Gao N., and Niu J. CFD study on micro-environment around human body and personalized ventilation. Building and Environment 39 (2004) 795-805
17. Ren Z., and Stewart J. Prediction of personal exposure to sources in industrial buildings using a sub-zonal model. Environmental Modelling & Software 20 (2005) 623-638
18. Hayashi T., Ishizu Y., Kato S., and Murakami S. CFD analysis on characteristics of contaminated indoor air ventilation and its application in the evaluation of the effects of contaminant inhalation by a human occupant. Building and Environment 37 (2002) 219-230
19. Zhu S., Kato S., Murakami S., and Hayashi T. Study on inhalation region by means of CFD analysis and experiment. Building and Environment 40 (2004) 1329-2336
20. Yang X., Chen Q., Zeng J., Zhang J.S., and Shaw C.Y. A mass transfer model for simulating volatile organic compound emission from 'wet' coating materials applied to absorptive substrates. International Journal of Heating and Mass Transfer 44 (2001) 1803-1815
21. Zhang Q, Kato S, Qingyu Z, Ataka Y. The comparison of mathematical models of VOCs emitted by building materials. In: Proceedings of air conditioning, Nagoya, Japan, 2004. p. 1047-50.
22. Huang H., and Haghighat F. Modelling of volatile organic compounds emission from dry building materials. Building and Environment 37 (2002) 1349-1360
23. Haghighat F., and Huang H. Integrated IAQ model for prediction of VOC emissions from building material. Building and Environment 38 (2003) 1007-1017
24. Yang X., Chen Q., and Bluyssen P.M. Prediction of the short-term and long-term volatile organic compound emission from SBR bitumen-back carpet under different temperatures. ASHRAE Transactions 104 2 (1998) 1297-1308
25. Yang X., Chen Q., Zhang J.S., Magee R., Zeng J., and Shaw C.Y. Numerical simulations of VOC emissions from dry materials. Building and Environment 36 (2001) 1099-1107
26. Yamamoto A, Murakami S, Kato S. Kazuhide Ito. Study of emission from building material and it's prediction with CFD(1). Kato and Ooka Laboratory; 2001. p. 33-6 [in Japanese].
27. Zhang L.Z., and Niu J.L. Effects of substrate parameters on the emissions of volatile organic compounds from wet coating materials. Building and Environment 38 (2003) 939-946
28. SHASE. Design of air-conditioning equipment, Version 1.3. 2001. p. 20-36 [in Japanese].
29. Brohus H. Personal exposure to contaminant sources in the ventilated rooms. PhD thesis, Aloborg University, Denmark, 1997.
30. Murakami S., Kato S., and Zeng J. Flow and temperature fields around human body with various room air distribution, CFD study on computational thermal manikin-Part I. ASHREA Transactions 103 (1997) 3-15
31. Arakawa C. Computational fluid dynamics for engineering. University of Tokyo Press; 1994.
32. Sandberg M. Ventilation effectiveness and purging flow rate-A review. International symposium on room air convection and ventilation effectiveness, Tokyo, Japan,1992. p. 321-32.